
Katsuyo Thornton
University of Michigan · Materials Science and Engineering
Active 1904–2024
Research topics
- Materials science
- Composite material
- Thermodynamics
- Physics
- Mechanics
- Physical chemistry
- Chemistry
- Metallurgy
Selected publications
Sensitivity analysis of a phase field model for static recrystallization of deformed microstructures
Modelling and Simulation in Materials Science and Engineering · 2020 · 14 citations
Senior authorCorresponding- Materials science
- Composite material
- Metallurgy
Abstract Static recrystallization is a process whereby dislocation-free grains are nucleated in a deformed microstructure and then newly recrystallized grains grow and consume the previously existing grains. This paper describes a phase field model for static recrystallization, along with details of the implementation and simulation results. Recrystallized grains are seeded utilizing a probability-based method, including a hold time to allow the order parameters to adjust to seeded grains. The nominal simulation time is corrected to account for the nuclei hold and for the time required for a nucleus to grow from its critical size to the seeded size. Microstructural evolution was simulated for two- and three-dimensional systems and the fraction recrystallized was quantified via Avrami kinetics. The resulting Avrami time exponents were in agreement with the expected values for site-saturated nucleation. The variability in the Avrami parameters was quantified by simulating the recrystallization of the same underlying polycrystalline microstructure but using different seed locations. Additional simulations were performed to determine the influence of the deformed microstructure on recrystallization, specifically investigating the effects of the spatial distribution of the initial dislocation density within the microstructure as well as the morphologies of the polycrystalline microstructure. For the significantly deformed polycrystalline microstructures examined in this work, it is shown that microstructural evolution is primarily driven by stored energy in dislocations rather than grain boundary energy.
Electrochimica Acta · 2020 · 32 citations
Senior authorCorresponding- Materials science
- Mechanics
- Composite material
Recent grants
Collaborative Research: Summer School for Integrated Computational Materials Education
NSF · $285k · 2014–2019
NSF · $394k · 2009–2013
Collaborative Research: Morphological Evolution in Materials
NSF · $121k · 2005–2008
NSF · $900k · 2011–2015
FRG: Collaborative Research: Mathematical Modeling of Rechargeable Batteries
NSF · $316k · 2009–2013
Frequent coauthors
- 34 shared
Peter W. Voorhees
Levine Cancer Institute
- 28 shared
Hui-Chia Yu
- 23 shared
Stephen DeWitt
Oak Ridge National Laboratory
- 20 shared
Vishwas Goel
University of Michigan–Ann Arbor
- 20 shared
Gerbrand Ceder
University of California, Berkeley
- 17 shared
Larry K. Aagesen
Idaho National Laboratory
- 17 shared
Bernardo Orvañanos
- 16 shared
David Montiel
University of Michigan–Ann Arbor
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